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Main Author: Worley, Dale R.
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2504.05507
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author Worley, Dale R.
author_facet Worley, Dale R.
contents This paper explores alternative statements of the axioms for lattice gluing, focusing on lattices that are modular, locally finite, and have finite covers, but may have infinite height. We give a set of "maximal" axioms that maximize what can be immediately adduced about the structure of a valid gluing. We also give a set of "minimal" axioms that minimize what needs to be adduced to prove that a system of blocks is a valid gluing. This system appears to be novel in the literature. A distinctive feature of the minimal axioms is that they involve only relationships between elements of the skeleton which are within an interval $[x \wedge y, x \vee y]$ where either $x$ and $y$ cover $x \wedge y$ or they are covered by $x \vee y$. That is, they have a decidedly local scope, despite that the resulting sum lattice, being modular, has global structure, such as the diamond isomorphism theorem.
format Preprint
id arxiv_https___arxiv_org_abs_2504_05507
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle On the structure of modular lattices -- Axioms for gluing
Worley, Dale R.
Combinatorics
06B15
This paper explores alternative statements of the axioms for lattice gluing, focusing on lattices that are modular, locally finite, and have finite covers, but may have infinite height. We give a set of "maximal" axioms that maximize what can be immediately adduced about the structure of a valid gluing. We also give a set of "minimal" axioms that minimize what needs to be adduced to prove that a system of blocks is a valid gluing. This system appears to be novel in the literature. A distinctive feature of the minimal axioms is that they involve only relationships between elements of the skeleton which are within an interval $[x \wedge y, x \vee y]$ where either $x$ and $y$ cover $x \wedge y$ or they are covered by $x \vee y$. That is, they have a decidedly local scope, despite that the resulting sum lattice, being modular, has global structure, such as the diamond isomorphism theorem.
title On the structure of modular lattices -- Axioms for gluing
topic Combinatorics
06B15
url https://arxiv.org/abs/2504.05507